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115. Sato, Yoshinobu, Toshiharu Kojiri,
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116. Sato, Yoshinobu, Motohiro Honma,
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119. Yu, Wansik, Eiichi Nakakita, and
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122. Chaffe, P.L.B. K.
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2014.
128. Yu, Wansik, Eiichi Nakakita, Sunmin Kim, and Kosei Yamaguchi, Accuracy improvement of
flood forecasting using pre-processing of ensemble numerical weather prediction
rainfall fields, Journal of Japan Society of Civil Engineers, B1 (Hydraulic
Engineering), JSCE, Vol.70, No.4, pp.151-156, 2014.
129. cLrEkpę: wohÎg[_đp˘˝~
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130. éËR\Ek¤LPEkpę: GCMóÔđxđlśľ˝nş
ÂŤÖĚCóĎŽeżĚvmŚI]żč@ÉÖˇé¤ yŘwď_śWCB1 (
Hw), ć70ŞCNo.4, pp.1135-1140,
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131. kpęEźe˛žERűO˝FQJĚúTmE\ńVXeĚJAÍěZp_śWAVol.20, pp.355-360,
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132. c]EcSîErŁüęEkpęF~JXP[ĚŞŁÉîâ˝ZÔ~J\Şč@Ě\Şëˇčč@ÉÖˇé¤AÍěZp_śWAVol.20, pp.331-336,
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133. GžEckiEkpęE|VŕîEîççE{VLîEHśëĽFŹÍěQɨŻéŕOĂßöđĽÜŚ˝nćĘĚđďťfEsŽÉÖˇé¤AÍěZp_śWAVol.20, pp.425-430,
2014.6.
134. Yu, Tian-You,
Ph. D; David B. Parsons; Eiichi Nakakita; Toshitaka
Tsuda; Hirohiko Ishikawa, Mitigating the Impact of
Severe Weather and Climate Variability through Innovative Sensing, Modeling,
and Prediction, BAMS-D-14-00027, Bulletin of the American Meteorological Society, 2014.
135DckiEGžEkpęE|VŕîEîççE{VLîEHśëĽFsXnĚĎJđĽÜŚ˝^
ĂXN]żÉćéhĐvć, đjsshĐ_śW, Vol.8, pp.91-98, 2014.
136D|VŕîEGžEckiEkpęEîççE{VLîEHśëĽFŹÍěQĚĂđÍĆCŰîńđpľ˝nćhĐvćŞzčˇéĐQC[WĚO\z, yŘwď_śWF6 (ŔSâč), Vol.70, No.2,
pp.I_37-I_44, 2014.
137. kpęEě°EKIM Sunmin, ~JúWJđŕ˝çˇĺCęÁŤĚCóĎŽÉş¤oťpxĚŤĎť\Ş, yŘwď_śWCB1 (
Hw), ć71ŞCNo.4, pp.373-378,
2015.3.
138. @rFEî_ěçEkpęEĂęőF, sŹxđlśľ˝~Jxčč@ĚńÄ, yŘwď_śWCB1 (
Hw), ć71ŞCNo.4,
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139. éŘlEĺłńEkpęE´úoj, JĘvÉćéĺJĚߨŤ\Ě]żĆJĘvĚóżćÔĚŠźľű@ÉÖˇé¤, yŘwď_śWCB1 (
Hw), ć71ŞCNo.4, pp.1303-1308,
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140. éËR\E˛Ą@Ekpę, ssJ
ÇVXeĚŔÔ§äɨŻéwohÎg[_[Éćé~
\ŞîńĚLřpűôÉÖˇé¤, yŘwď_śWCB1 (
Hw), ć71ŞCNo.4, pp.1345-1350,
2015.3.
141. Oue, Mariko,
Kazuhisa Tsuboki, and Eiichi Nakakita, Vertical
distribution of precipitation particles in Baiu frontal
stratiform intense rainfall around Okinawa Island, Japan, Journal of
Geophysical Research – Atmospheres, 120, pp.5622-5637,
doi:10.1002/2014JD022712, 2015.
142. Yu, Wansik, Eiichi Nakakita, Sunmin
Kim, and Kosei Yamaguchi, Improvement of rainfall and flood forecasts by
blending ensemble NWP rainfall with radar prediction considering orographic
rainfall, Journal of Hydrology, Vol.531, pp.494-507,
doi:10.1061/jhydrol.2015.04.055, 2015.
143. ĐRVERHşFEşśFEXcGEkpęFÇnIJTmVXeĚJAÍěZp_śWAVol.21, pp.401-406, 2015.6.
144. ź{KĺEÜrYžEéŘvIE|ŠNçEkpęFäĚ~JĘčč@ÉÖˇé¤AÍěZp_śWAVol.21, pp.419-424, 2015.6.
145. ckiEŕŁEGžEkpęE{VLîEHśëĽFJÉćé^
EyÎŹĚśđzčľ˝}`EnU[hĆńďťfîÉÖˇé¤AÍěZp_śWAVol.21, pp.485-490, 2015.6.
146. Yoon, Seongsim
and Eiichi Nakakita, Application of an X-Band Multi-Parameter Radar Network for
Rain-Based Urban Flood Forecasting, Journal of Hydrologic Engineering, ASCE,
2015.
147. Yu, Wansik,
Eiichi Nakakita, Sunmin Kim, and Kosei Yamaguchi,
Assessment of Uncertainty Propagation of Ensemble NWP Rainfall to Flood
Forecasting with Catchment Scale, Advances in Meteorology, 2015.
148. Ogawa, Mariko, Satoru Oishi,
Kosei Yamaguchi, and Eiichi Nakakita, Quantitative Parametric Approach to
Estimating Snowflake Size Distributions Using an Optical Sensing Disdrometer, SOLA, Vo.11, pp.134-137, doi:10.2151/sola.2015-031,2015.
149. Touge, Toshiya, Kenji Tanaka
Temur KHUJANAZAROV, Kristina TODERICH, Osamu KOZAN and Eiichi NAKAKITA,
Developing aWater Circulation Model in the Aral Sea
Basin Based on in situ Measurements on Irrigated Farm,Journal
of Arid Land Studies, Vol.25, No.3, pp.133-136, 2016.
150. Suzuki, Kenji, Natsumi Munechika, Katsuhiro Nakagawa, Kosei Yamaguchi, and Eiichi
Nakakita, Simultaneous measurements of a stratiform cloud by multipoint videosonde launchings, SOLA 12(1), pp.12-16, 2016.
151. cLrEkpę, wohÎg[_đp˘˝Bˇé~
ZĚoÉÖˇé¤, yŘwď_śWCB1 (
Hw), ć72ŞCNo.4, pp.193-198, 2016.3
152. kpęE˛ĄIlERűO˝, QJĚ^}SśŹÉ¨ŻéQÇ\˘ĚîbIđÍ, yŘwď_śWCB1 (
Hw), ć72ŞCNo.4, pp.199-204, 2016.3
153. RűO˝EŠaíEäă@ŔEkpę, JĚuívđ¨Śé˝ßĚssřĘđlśˇéLESCŰfĚJ, yŘwď_śWCB1 (
Hw), ć72ŞCNo.4, pp.205-210, 2016.3.
154Dź´˛VE@[îErűKGEkpęEycaŤACŰĄ~J\ŞiGSMjĆäîńđpľ˝dęp_Ě^pxťč@ĚŔŘAyŘwď_śWCB1 (
Hw), ć72ŞCNo.4, pp.1195-1200, 2016.3.
155. Yu, Wansik, Eiichi Nakakita, Sunmin Kim, Kosei Yamaguchi, Improving the accuracy of
flood forecasting with transpositions of ensemble NWP rainfall fields
considering orographic effects, Journal of Hydrology, 2016 (in printing).
156. |VŕîEkpęEîççEckiE{VLî, ÍěECŰîńĚZŻÉćéĺĚIČpđÚwľ˝nćîńĆľÄĚpč@ĚńÄ, ÍěZp_śWAVol.21, 2016.
157. Yoon, Seongsim, Eiichi Nakakita, Ryuta Nishiwaki, and Hiroto
Sato, Research on the radar-based risk prediction of sudden downpower
in urban area: a case study of metropolitan area, Journal of Korea Water Resouses Association, Vol.49 No.9, pp.749-759, 2016.
(Korean with English abstract)
158. Mizuta, Ryo; Akihiko Murata; Masayoshi Ishii; Hideo Shiogama; Kenshi Hibino; Nobuhito
Mori; Osamu Arakawa; Yukiko Imada; Kohei Yoshida; Toshinori
Aoyagi; Hiroaki Kawase; Masato Mori; Yasuko Okada; Tomoya Shimura; Toshiharu
Nagatomo; Mikiko Ikeda; Hirokazu Endo; Masaya Nosaka;
Miki Arai; Chiharu Takahashi; Kenji Tanaka; Tetsuya Takemi; Yasuto Tachikawa; Khujanazarov Temur; Youichi
Kamae; Masahiro Watanabe; Hidetaka Sasaki; Akio Kitoh;
Izuru Takayabu; Eiichi
Nakakita, Over 5000 years of ensemble future climate simulations by 60 km
global and 20 km regional atmospheric models, Bulletin of the American
Meteorological Society, 2016.
159.Takemi, Tetsuya, Yasuko Okada, Rui Ito, Hirohiko
Ishikawa, and Eiichi Nakakita, Assessing the impacts of global warming om
meteorological hazards and risks in Japan: Philosophy and achievements of the
SOUSEI program, Hydrological Research Letters, Vol.10, No.4, pp119-125, 2016.
160DX@MlEuşqçEgcN˝E
c@şEŞcőqEKhujanazarov Temur EÎäłDEŘ{šGE÷oEkpęC
161. Nakakita, Eiichi, Hiroto Sato, Ryuta Nishiwaki, Hiroyuki
Yamabe, and Kosei Yamaguchi, Early Detection of Baby-Rain-Cell Aloft in a
Severe Storm and Risk Projection for Urban Flash Flood, Advances in
Meteorology, 15pp., Article ID 5962356, 2017.
162 Kim, Sunmin, Yasuto Tachikawa, and
Eiichi Nakakita, Statistical downscaling of AGCM60km precipitation based on
spatial correlation of AGCM20km output, Hydrological Research Letters, Vol.11,
No.1, pp73-79, 2017.
163. éŘlEkpęE´úojA1kmbV
đÍJĘ̸xŘ \ÖbMznűĆknűɨŻéđÍ\AyŘwď_śWCB1 (
Hw), ć73ŞCNo.4, pp.13-18, 2017.3.
164. kpęEXł[žNEť@ĂĆA5kmđxĚćCófđp˘˝QJśNpxĚŤĎťčAyŘwď_śWCB1 (
Hw), ć73ŞCNo.4, pp.133-138, 2017.3.
165. RűO˝EĂcN˝EkpęAXRAINđp˘˝ATuŻťÉćéüó~
ŃĚŰĆśĚ\ŞAyŘwď_śWCB1 (
Hw), ć73ŞCNo.4, pp.211-216, 2017.3.
166. @rFEĐRVEkpęA}`Z^Xg[ĚúTmÉÖˇé¤AyŘwď_śWCB1(
Hw), ć73ŞANo.4Cpp.223-228, 2017.3.
167. ÉĄCĘEź´IIqEĺÎ@NEkpęAÚŹfđp˘˝ZÔ~J\޸xüăĚ˝ßĚ\Şp^[IĘč@ÉÖˇé¤AyŘwď_śWCB1 (
Hw), ć73ŞCNo.4, pp.229-234, 2017.3.
168. ź´˛VEc@]EkpęACŰĄTÔATu\ńĆCŰĄGSMđpľ˝ŹćJĘĚ\޸xüăč@ĚîbI˘AyŘwď_śWCB1 (
Hw), ć73ŞCNo.4, pp.265-270, 2017.3.
169D rFEŕ´ mäERű O˝Ek pę: XohÎg[_Ôđp˘˝ĺąqĚăóTmÉÖˇé¤, yŘwď_śWAB1 i
Hwj, Vol.73, No.3, pp.43-53, 2017.
170DéŘlEkpęE´úoj:[_[JĘĚńÔ^]K§ÖĚpÉÖˇé¤AyŘwď_śW, B1 i
Hwj, Vol.73, No.3, pp.54-70, 2017.
171. ŹěÜčqEĺÎ@NEéŘŤmEěLERűO˝EkpęFrfI]fĹŞčłę˝ăóĚJHÉΡéߨřŚÉÖˇé¤, yŘwď_śWCB1 (
Hw), ć74ŞCNo.4, pp.49-54, 2018.3.
172. kpęEVŰF[E˛ĄIlERűO˝EĺŰFKaoh[_[đpľ˝Ď_śŹiKÉÖˇé¤, yŘwď_śWCB1 (
Hw), ć74ŞCNo.4, pp.55-60C 2018.3.
173DRűO˝Eăę÷ExrmSEkpęF_îńĎŞđzčľ˝f[^ŻťÉćéQJ\Ş, yŘwď_śWCB1 (
Hw), ć74ŞCNo.4, pp.61-66C2018.3.
174. kpęEŹâcäŠčFCóĎŽÉş¤~JúWJĆĺCęĚŤĎťÉÖˇé}`XP[đÍ, yŘwď_śWCB1 (
Hw), ć74ŞCNo.4, pp.139-144. 2018.3.i
Hw_śÜóÜ_śj
175. Harjupa,
Wendi, Eiichi NAKAKITA, Yasuhiko SUMIDA, and Kosei YAMAGUCHIFFundamental investigation of
generation of guellira-heacy rainfall using
Himawari-8 and XRAIN information on Kinki rigion, Journal of Japan
Society of Civil Engineers, B1 (Hydraulic Engineering), JSCE, Vol.74, No.4,
pp.283-288, 2018.3.
176. qGKEÍc¨şEkpęEĂě˝FCŰ\ŞîńđKpľ˝dęp_ɨŻéŹćíQy¸^pč@̢CyŘwďÍěZp_śWCć24ŞCpp.617-622, 2018.6.
177. Osakada,
Yukari, and Eiichi Nakakita, Future Change of Occurrence Frequency of Baiu Heavy Rainfall and Its Linked Atmospheric Patterns by
Multiscale Analysis, SOLA, 14, 79-85, doi:10.2151/sola.2018-014., 2018.6
178. Yu, Wansik,
E. Nakakita, S. Kim, and K. Yamaguchi,
Assessment of ensemble flood forecasting with numerical weather prediction by
considering spatial shift of rainfall fields, Water Resources and Hydrologic
Engineering, KSCE Journal of Civil Engineering, Vol.22, pp.3686-3696, 2018.09.
179. Wu, Ying-Hsin, Takahiro
Sayama, and Eiichi Nakakita, Appropriate boundary condition 6or Dupuit-Boussinesq theory on the steady groundwater flow in an
unconfined sloping aquifer with recharge, Water Resources Research, Vol.54,
pp.5933-5947, 2018.10.
180. Wu, Ying-Hsin and Eiichi
Nakakita, A transient model for shallow groundwater table evolution in an
unconfined sloping aquifer, Journal of Japan Society of Civil Engineers, Ser.
B1 (Hydraulic Engineering), Vol.74, No.5, pp.319-324, 2018.6.
181. ŹâcäŠčCkpęFĚćCófÉćé~JJpąÔĆĎZJĘĚŤĎť\ŞĆßĚáđp˘˝ŘCyŘwď_śWB1i
HwjCVo.74, No.5, pp.19-24, 2018.6.
182. kpęE´{˝uEXł[žNEŹâcäŠč, CóĎŽÉş¤ĺCŔčťyŃ
öCZŞQJśNpxÉyÚˇeż, yŘwď_śWB1i
HwjCVo.74, No.5, pp.25-30, 2018.6. i
Hw_śÜóÜ_śj
183. á×FEöŚźóERűO˝Ekpę, Xoh}`p[^[_đp˘˝JHąaŞzĆ~
ĘĚč, yŘwď_śWB1i
HwjCVo.74, No.5, pp.247-252,
2018.6.
184. ěLEĐRVEcLrEĽĂkiEkpę, QÇđp˘˝ÇnIJTmč@ÉÖˇé¤, Řwď_śWB1i
HwjCVo.74, No.5, pp.265-270,
2018.6.
185. RűO˝ExrmSEkpę, ˝Ź29N7ăBkJɨŻéüó~
ŃĚ\ŞÂ\ŤĆB@\ĚđÍ, yŘwď_śWB1i
HwjCVol.74, No.5, pp.277-282,
2018.6.
186. Harjupa,
Wendi, Eiichi Nakakita, Yasuhiko Sumida, Aritoshi
Masuda, TRIAL UTILIZATION OF RAPID SCAN OBSERVATION OF HIMAWARI-8 FOR OBTAINING
INFORMATION ON CUMULUS LIFE STAGE, Journal of Japan Society of Civil Engineers,
B1 (Hydraulic Engineering), JSCE, Vol.74, No.5, pp.283-288, 2018.6.
187. {ę~EěYĄE˛Ą@ąEzqĎOEşŞęE{ę´žYEkpę, úĚOhĐsŽÉˇé^
\ŞîńĚńŚč@ `r캏ćđÎŰĆľÄ`, yŘwď_śWB1i
HwjCVol.74, No.5, pp.1285-1290,
2018.6.
188. şy˝EéŘlEkpę, ńÔ^]K§ÖĚpđÚIĆľ˝~J\Şîń̸xŘ, yŘwď_śWB1i
HwjCVol.74, No.5, pp.1303-1308,
2018.6.
189DMori, Nobuhito, Tomoya Shimura,
Kohei Yoshida, Ryo Mizuta, Yasuko Okada, Mikiko Fujita, Temur Khujanazarov, and Eiichi Nakakita, Future changes in
extreme storm surges based on mega-ensemble projection using 60-km resolution
atmospheric global circulation model, Coastal Engineering Journal,
https://doi.org/10.1080/21664250.2019.1586290, 2019.3.
190. şy˝EéŘlEŕ´mäEĄ@Ekpę, ~J\Şîńđp˘˝ńÔ^]K§Ěß\޸xĚ]ż, yŘwď_śWB1i
HwjCVol.75, No.2, pp.121-1126, 2019.6.
191. Harjupa, Wendi Eiichi Nakakita,
Yasuhiko Sumida, Aritoshi Masuda, RDCA INDEX BASED
UPDRAFT AREA AND ITS VERIFICATION USING POLARIMETRIC DOPPLER RADAR, Journal of
Japan Society of Civil Engineers, B1 (Hydraulic Engineering), JSCE, Vol.75,
No.2, pp.127-132, 2019.6.
192. Wu, Ying-Hsin, Eiichi Nakakita, ASSESSMENT OF LANDSLIDE
HAZARDS USING LOGISTIC REGRESSION WITH HIGH-RESOLUTION RADAR RAINFALL
OBSERVATION AND GEOLOGICAL FACTOR, Journal of Japan Society of Civil Engineers,
B1 (Hydraulic Engineering), JSCE, Vol.75, No.2, pp.157-162, 2019.6.
193. RűO˝EcŢßEkpę, üó~
ŃJ\ŞÉüŻ˝
öCĚATu\ŞîńĚXVđđÍ, yŘwď_śWB1i
HwjCVol.75, No.2, pp.1153-1158, 2019.6.
194. kpęEö[EVŰF[ERűO˝EěL, Kaoh[_ĆtF[YhAC[_đp˘˝QJBúĚĎ_Ú×đÍ, yŘwď_śWB1i
HwjCVol.75, No.2, pp.1171-1176, 2019.6.
195. ĺÎ@NEŃ@źóEŹěÜčqEě`KEkpę, rfI]fđp˘˝źŹvt@CĚZoĆ_¨IđÍ, yŘwď_śWB1i
HwjCVol.75, No.2, pp.1177-1182, 2019.6.
196. ŹâcäŠčCkpęC˝Ź30N7JĚÁĽyŃn
ˇgťÉćéeż]żCyŘwď_śWB1i
HwjCVol.75, No1,
pp.231-238, 2019.6.
167. RHşFEcLrEkpęC2łZÇŐč@Éîâ˝Ú×[_~JîńÉćéZÔ~J\Şč@ĚJ, ÍěZp_śW, ć26Ş, 2020.6.ióüj.
198. KIM, Hwayeon
and Eiichi NAKAKITA, Development of the early detectionand
quantitative risk prediction method on the guerrilla heavy rainfall, Journal of
Japan Society of Civil Engineers, B1 (Hydraulic Engineering), JSCE, Vol.76,
No.2, pp.175-180, 2020.8.
199. ŹâcäŠčEş@¨Ekpę, ~JúWJĚóÔÁŤđlśľ˝JpąÔĆĎZJĘĚŤĎťĚvŞÍ, yŘwď_śWB1i
HwjCVol.76, No.2, pp.7-12, 2020.8.
200DŹâcäŠčEkpę, ~JúWJĚóÔÁŤđlśľ˝JpąÔĆĎZJĘĚŤĎťĚvŞÍ, yŘwď_śWB1i
HwjCVol.76, No.2, pp.1-6, 2020.8.
201. Ying-Hsin WU, Eiichi
NAKAKITA and Masaru KUNITOMO,Future Cahnge of rainfall-triggered land slide risk using NHRCM05
based on crtitical line method, Journal of Japan
Society of Civil Engineers, B1 (Hydraulic Engineering), JSCE, Vol.76, No.2,
pp.67-72, 2020.8.
202. RűO˝EĺěNVEkpę, ˇĘůzÉ
Úľ˝źQxf[^Żťč@ĚńÄĆzŔą, yŘwď_śWB1i
HwjCVol.76, No.2, pp.259-264,
2020.8.
203. AHMAD, Fauziana,
Kosei YAMAGUCHI and Eiichi NAKAKITA, Investigation of single cell to multicell
in the cluster thunderstorms using vorticity analysis, Journal of Japan Society
of Civil Engineers, B1 (Hydraulic Engineering), JSCE, Vol.76, No.2, pp.187-192,
2020.8.
204. Š aíEéŘ ŤmERű O˝Ek pę, ~úĚutŮ`ÔĚťĘđÚIÉľ˝Îg[_[đp˘˝0xčč@, yŘwď_śWB1i
HwjCVol.76, No.2, pp.205-210,
2020.8.
205. ş y˝EéŘ lEŕ´ mäEĄ Ek pę, ńÔ^]K§ÖĚpĚ˝ßĚZÔ~J\ŞĚâłč@̢, yŘwď_śWB1i
HwjCVol.76, No.2, pp.409-414,
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206. ĺÎ NEě˝ ăůîEě `KERY EéŘ ŤmERű O˝Ek pę, rfI]fĆlV~
[VÉćé_ŕĚJHąaŞzvŞč@ÉÖˇé¤yŘwď_śWB1i
HwjCVol.76, No.2, pp.199-204,
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207. ÁĄ ĺă, ´ ś, iě ˛m, ÁĄ ëç, ŘŘ av, c qĺ, §ě Nl, k pęAd4PDFđgpľ˝xgiEgÍĚÉlŹĘĚŤĎť\Ş, yŘwď_śWaPi
Hwj 76(1) 107-117
2020.8.
208. Mori, Nobuhito, Tetsuya Takemi, Yasuto Tachikawa, Hirokazu Tatano, Tomoya Shimura,Tomohiro
Tanaka, Toshimi Fujimi, Yukari Osakada, Adrean Web,
and Eiichi Nakakita, Recent nationwide climate change impact assessments of
natural hazards in Japan and East Asia, Weather and Climate Extremes,
https://www.dropbox.com/s/odble5jmvq2dvj2/proof_WACE_100309_AW.pdf?dl=0,
2021.2.
209DNugroho,Ginaldi Ari, Kosei Yamaguchi, Eiichi Nakakita,Masayuki K. Yamamoto, and Seiji Kawamura,
Utilization of High-Resolution Boundary Layer Radar and Wavelet to Detect
Microscale Downdraft-Updraft Combination, SOLA, 2021, Vol.17, pp. 63−68,
doi:10.2151/sola.2021-010, 2021.2
210Dź{ mmErc TVEÍc ¨şERc ülEĂě ˝Ek pęAd4PDF đpľ˝dęp_Éćé^
íQy¸^pč@ĚřĘŘAÍěZp_śWCć27 ŞC2021 N6 .
211DWu Ying-Hsin, E. Nakakita, A.
Yamaji: Future change of snake line pattern and its relation to sediment
disasters, Journal of Japan Society of Civil Engineers Ser. B1 (Hydraulic
Engineering), 77(2), I_193-I_198, 2021.12.
212DkpęE´cämEŹâcäŠčFn
ˇgťÉş¤~JúĚ~J¨ćŃĺCęĚ^CV[XČŤĎťđÍCyŘwď_śWB1i
HwjCVol.77CNo.2Cpp.I_1273-I_1278, 2021.12D
213DŹâcäŠčEkpęFüóÎŹnĚ[ˇgťŔąÉüÓďŞ^ŚéeżĆÂŤęwWĚđÍCyŘwď_śWB1i
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